Skip to main content
Fachgebiete
Automobil + Motoren Bauwesen + Immobilien Business IT + Informatik Elektrotechnik + Elektronik Energie + Nachhaltigkeit Finance + Banking Management + Führung Marketing + Vertrieb Maschinenbau + Werkstoffe Versicherung + Risiko
DE
EN
Bücher
Zeitschriften
Themenseiten
Organisationspsychologie Projektmanagement Marketing Smart Manufacturing
Weitere Formate
Podcasts Webinare Technik Webinare Wirtschaft Kongresse Veranstaltungskalender Awards
Jetzt Einzelzugang starten
Zugang für Unternehmen
Referenzkunden
SLX-Digitalkonferenz: Zukunftswerkstatt 2024

Mehr Umsatz mit Top-Kontakten

Am 7. Mai erfahren Sie, wie Vertriebsteams Leadgenerierung, Leadnurturing und Leadstrategien effizient steuern können.
Erweiterte Suche
Anmelden
nach oben
Erschienen in:
Buchtitelbild

2017 | OriginalPaper | Buchkapitel

1. Introduction

verfasst von : Tuan Anh Ho

Erschienen in: Nanoscale Fluid Transport

Verlag: Springer International Publishing

Einloggen

Aktivieren Sie unsere intelligente Suche, um passende Fachinhalte oder Patente zu finden.

search-config
loading …

Abstract

Nanoscale fluid transport is usually referred to the fluid flow through a channel with size along one or more directions below 100mm. At this small length scale, due to high surface area to volume ratio, the fluid-solid interaction at solid/fluid interface is one of the most dominant factors that governs fluid behaviour. Because of this unique feature many interesting transport phenomena occur on this length scale. In this chapter I provide the literature review on the novel fluid transport phenomena such as hydrodynamic slip boundary condition, fast fluid transport in carbon nanotubes and graphene nanopores, and gas transport in shale rocks. I also provide a short overview of the usage of molecular modeling techniques in studying fluid flow in nanochannels.

Sie haben noch keine Lizenz? Dann Informieren Sie sich jetzt über unsere Produkte:

Springer Professional "Wirtschaft+Technik"

Online-Abonnement

Mit Springer Professional "Wirtschaft+Technik" erhalten Sie Zugriff auf:

  • über 102.000 Bücher
  • über 537 Zeitschriften

aus folgenden Fachgebieten:

  • Automobil + Motoren
  • Bauwesen + Immobilien
  • Business IT + Informatik
  • Elektrotechnik + Elektronik
  • Energie + Nachhaltigkeit
  • Finance + Banking
  • Management + Führung
  • Marketing + Vertrieb
  • Maschinenbau + Werkstoffe
  • Versicherung + Risiko

Jetzt Wissensvorsprung sichern!

Jetzt informieren

Springer Professional "Technik"

Online-Abonnement

Mit Springer Professional "Technik" erhalten Sie Zugriff auf:

  • über 67.000 Bücher
  • über 390 Zeitschriften

aus folgenden Fachgebieten:

  • Automobil + Motoren
  • Bauwesen + Immobilien
  • Business IT + Informatik
  • Elektrotechnik + Elektronik
  • Energie + Nachhaltigkeit
  • Maschinenbau + Werkstoffe




 

Jetzt Wissensvorsprung sichern!

Jetzt informieren

Springer Professional "Wirtschaft"

Online-Abonnement

Mit Springer Professional "Wirtschaft" erhalten Sie Zugriff auf:

  • über 67.000 Bücher
  • über 340 Zeitschriften

aus folgenden Fachgebieten:

  • Bauwesen + Immobilien
  • Business IT + Informatik
  • Finance + Banking
  • Management + Führung
  • Marketing + Vertrieb
  • Versicherung + Risiko




Jetzt Wissensvorsprung sichern!

Jetzt informieren
Nächstes Kapitel Methodology
Literatur
1.
Duan, C., Wang, W., & Xie, Q. (2013). Review article: Fabrication of nanofluidic devices. Biomicrofluidics, 7(2), 026501.CrossRef
2.
Sparreboom, W., van den Berg, A., & Eijkel, J. C. T. (2009). Principles and applications of nanofluidic transport. Nature Nanotechnology, 4(11), 713–720.CrossRef
3.
Yang, S. C. (2006). Effects of surface roughness and interface wettability on nanoscale flow in a nanochannel. Microfluidics and Nanofluidics, 2(6), 501–511.CrossRef
4.
Neto, C., Evans, D. R., Bonaccurso, E., Butt, H. J., & Craig, V. S. J. (2005). Boundary slip in Newtonian liquids: A review of experimental studies. Reports on Progress in Physics, 68(12), 2859–2898.CrossRef
5.
Karnik, R., Castelino, K., Duan, C. H., & Majumdar, A. (2006). Diffusion-limited patterning of molecules in nanofluidic channels. Nano Letters, 6(8), 1735–1740.CrossRef
6.
Stein, D., Kruithof, M., & Dekker, C. (2004). Surface-charge-governed ion transport in nanofluidic channels. Physical Review Letters, 93(3), 035901.CrossRef
7.
Chang, H. C., & Yossifon, G. (2009). Understanding electrokinetics at the nanoscale: A perspective. Biomicrofluidics, 3(1), 012001.CrossRef
8.
Berezhkovskii, A., & Hummer, G. (2002). Single-file transport of water molecules through a carbon nanotube. Physical Review Letters, 89(6), 064503.CrossRef
9.
Eijkel, J. C. T., & van den Berg, A. (2005). Nanofluidics: What is it and what can we expect from it? Microfluidics and Nanofluidics, 1(3), 249–267.CrossRef
10.
Sparreboom, W., van den Berg, A., & Eijkel, J. C. T. (2010). Transport in nanofluidic systems: A review of theory and applications. New Journal of Physics, 12, 015004.CrossRef
11.
Thomas, M., Corry, B., & Hilder, T. A. (2014). What have we learnt about the mechanisms of rapid water transport, ion rejection and selectivity in nanopores from molecular simulation? Small (Weinheim an der Bergstrasse, Germany), 10(8), 1453–1465.CrossRef
12.
Cottin-Bizonne, C., Cross, B., Steinberger, A., & Charlaix, E. (2005). Boundary slip on smooth hydrophobic surfaces: Intrinsic effects and possible artifacts. Physical Review Letters, 94(5), 056102.CrossRef
13.
Ho, T. A., Papavassiliou, D. V., Lee, L. L., & Striolo, A. (2011). Liquid water can slip on a hydrophilic surface. Proceedings of the National Academy of Sciences USA, 108(39), 16170–16175.CrossRef
14.
Huang, D. M., Sendner, C., Horinek, D., Netz, R. R., & Bocquet, L. (2008). Water slippage versus contact angle: A quasiuniversal relationship. Physical Review Letters, 101(22), 226101.CrossRef
15.
Kannam, S. K., Todd, B. D., Hansen, J. S., & Daivis, P. J. (2011). Slip flow in graphene nanochannels. The Journal of Chemical Physics, 135(14), 144701.CrossRef
16.
Kannam, S. K., Todd, B. D., Hansen, J. S., & Daivis, P. J. (2012). Slip length of water on graphene: Limitations of non-equilibrium molecular dynamics simulations. The Journal of Chemical Physics, 136(2), 024705–024713.CrossRef
17.
Maali, A., Cohen-Bouhacina, T., & Kellay, H. (2008). Measurement of the slip length of water flow on graphite surface. Applied Physics Letters, 92(5), 053101.CrossRef
18.
Martini, A., Hsu, H.-Y., Patankar, N. A., & Lichter, S. (2008). Slip at high shear rates. Physical Review Letters, 100(20), 206001.CrossRef
19.
Martini, A., Roxin, A., Snurr, R. Q., Wang, Q., & Lichter, S. (2008). Molecular mechanisms of liquid slip. Journal of Fluid Mechanics, 600(1), 257.
20.
Zhu, Y., & Granick, S. (2001). Rate-dependent slip of Newtonian liquid at smooth surfaces. Physical Review Letters, 87(9), 096105.CrossRef
21.
Lauga E., Brenner, M., & Stone H. (2007) Handbook of experimental fluid dynamics. New York: Springer.
22.
Craig, V. S. J., Neto, C., & Williams, D. R. M. (2001). Shear-dependent boundary slip in an aqueous Newtonian liquid. Physical Review Letters, 87(5), 054504.CrossRef
23.
Barrat, J. L., & Bocquet, L. (1999). Large slip effect at a nonwetting fluid-solid interface. Physical Review Letters, 82(23), 4671–4674.CrossRef
24.
Kannam, S. K., Todd, B. D., Hansen, J. S., & Daivis, P. J. (2013). How fast does water flow in carbon nanotubes? The Journal of Chemical Physics, 138(9), 094701.CrossRef
25.
Whitby, M., Cagnon, L., Thanou, M., & Quirke, N. (2008). Enhanced fluid flow through nanoscale carbon pipes. Nano Letters, 8(9), 2632–2637.CrossRef
26.
Majumder, M., Chopra, N., Andrews, R., & Hinds, B. J. (2005). Nanoscale hydrodynamics: Enhanced flow in carbon nanotubes. Nature, 438(7070), 44.CrossRef
27.
Holt, J. K., et al. (2006). Fast mass transport through sub-2-nanometer carbon nanotubes. Science, 312(5776), 1034–1037.CrossRef
28.
Thomas, J. A., McGaughey, A. J. H., & Kuter-Arnebeck, O. (2010). Pressure-driven water flow through carbon nanotubes: Insights from molecular dynamics simulation. International Journal of Thermal Sciences, 49(2), 281–289.CrossRef
29.
Koumoutsakos, P., Jaffe, R. L., Werder, T., & Walther, J. H. (2003). On the validity of the no-slip condition in nanofluidics. Nanotech, 1, 148–151.
30.
Hummer, G., Rasaiah, J. C., & Noworyta, J. P. (2001). Water conduction through the hydrophobic channel of a carbon nanotube. Nature, 414(6860), 188–190.CrossRef
31.
Suk, M. E., & Aluru, N. R. (2010). Water transport through ultrathin graphene. The Journal of Physical Chemistry Letters, 1(10), 1590–1594.CrossRef
32.
Fornasiero, F., et al. (2008). Ion exclusion by sub-2-nm carbon nanotube pores. Proceedings of the National Academy of Sciences USA, 105(45), 17250–17255.CrossRef
33.
Corry, B. (2008). Designing carbon nanotube membranes for efficient water desalination. The Journal of Physical Chemistry B, 112(5), 1427–1434.CrossRef
34.
Cohen-Tanugi, D., & Grossman, J. C. (2012). Water desalination across nanoporous graphene. Nano Letters, 12(7), 3602–3608.CrossRef
35.
Sint, K., Wang, B., & Král, P. (2008). Selective ion passage through functionalized graphene nanopores. Journal of the American Chemical Society, 130(49), 16448–16449.CrossRef
36.
He, Z., Zhou, J., Lu, X., & Corry, B. (2013). Bioinspired graphene nanopores with voltage-tunable ion selectivity for Na+ and K+. ACS Nano, 7(11), 10148–10157.CrossRef
37.
Hilder, T. A., Yang, R., Gordon, D., Rendell, A. P., & Chung, S.-H. (2012). Silicon carbide nanotube as a chloride-selective channel. The Journal of Physical Chemistry C, 116(7), 4465–4470.CrossRef
38.
Song, C., & Corry, B. (2009). Intrinsic ion selectivity of narrow hydrophobic pores. The Journal of Physical Chemistry B, 113(21), 7642–7649.CrossRef
39.
Joly, L., Ybert, C., Trizac, E., & Bocquet, L. (2004). Hydrodynamics within the electric double layer on slipping surfaces. Physical Review Letters, 93(25), 257805.CrossRef
40.
Cipolla, C. L., Lolon, E., & Mayerhofer, M. J. (2009). Reservoir modeling and production evaluation in shale-gas reservoirs. International Petroleum Technology Conference.
41.
King, G. E. Hydraulic fracturing 101: What every representative, environmentalist, regulator, reporter, investor, university researcher, neighbor, and engineer should know about hydraulic fracturing risk.
42.
Boyer, C., Kieschnick, J., Suarez-Rivera, R., Lewis, R., & Water, G. (2006). Producing gas from its source. Oilfield Review 18(3), 36–49
43.
King, G. E. (2010). Thirty years of gas shale fracturing: What have we learned? SPE-133456-MS.
44.
Passey, Q. R., Bohacs, K., Esch, W. L., Klimentidis, R., & Sinha, S. (2010). From oil-prone source rock to gas-producing shale reservoir—geologic and petrophysical characterization of unconventional shale gas reservoirs. SPE-133456-MS.
45.
Wang, F. P., & Reed, R. M. (2009). Pore networks and fluid flow in gas shales. SPE-133456-MS.
46.
47.
Gasparik, M., et al. (2014). Geological controls on the methane storage capacity in organic-rich shales. International Journal of Coal Geology, 123, 34–51.CrossRef
48.
Heller, R., & Zoback, M. (2014). Adsorption of methane and carbon dioxide on gas shale and pure mineral samples. Journal of Unconventional Oil and Gas Resources, 8, 14–24.CrossRef
49.
Vandenbroucke, M., & Largeau, C. (2007). Kerogen origin, evolution and structure. Organic Geochemistry, 38(5), 719–833.CrossRef
50.
Javadpour, F., Fisher, D., & Unsworth., M. Nanoscale gas flow in shale gas sediments. Journal of Canadian Petroleum Technology, 46(10).
51.
Ziarani, A. S., & Aguilera, R. (2011). Knudsen’s permeability correction for tight porous media. Transport in Porous Media, 91(1), 239–260.CrossRef
52.
Jin, Z., & Firoozabadi, A. (2015). Flow of methane in shale nanopores at low and high pressure by molecular dynamics simulations. The Journal of Chemical Physics, 143(10), 104315.CrossRef
53.
Zhang, P., Hu, L., Meegoda, J. N., & Gao, S. (2015). Micro/nano-pore network analysis of gas flow in shale matrix. Scientific Reports, 5, 13501.CrossRef
54.
Klinkenberg, L. J. (1941). The permeability of porous media to liquids and gases. American Petroleum Institute. Drilling and Production Practice, New York.
55.
Firouzi, M., Alnoaimi, K., Kovscek, A., & Wilcox, J. (2014). Klinkenberg effect on predicting and measuring helium permeability in gas shales. International Journal of Coal Geology, 123, 62–68.CrossRef
56.
Bhatia, S. K., Bonilla, M. R., & Nicholson, D. (2011). Molecular transport in nanopores: A theoretical perspective. Physical Chemistry Chemical Physics: PCCP, 13(34), 15350–15383.CrossRef
57.
Collell, J., et al. (2015). Transport of multicomponent hydrocarbon mixtures in shale organic matter by molecular simulations. The Journal of Physical Chemistry C, 119(39), 22587–22595.CrossRef
58.
Wang, S., Javadpour, F., & Feng, Q. (2016). Molecular dynamics simulations of oil transport through inorganic nanopores in shale. Fuel, 171, 74–86.CrossRef
59.
He, S., Jiang, Y., Conrad, J. C., & Qin, G. (2015). Molecular simulation of natural gas transport and storage in shale rocks with heterogeneous nano-pore structures. Journal of Petroleum Science and Engineering, 133, 401–409.CrossRef
60.
Ungerer, P., Collell, J., & Yiannourakou, M. (2015). Molecular modeling of the volumetric and thermodynamic properties of kerogen: Influence of organic type and maturity. Energy & Fuels, 29(1), 91–105.CrossRef
61.
Kelemen, S. R., et al. (2007). Direct characterization of kerogen by X-ray and solid-state 13C nuclear magnetic resonance methods. Energy & Fuels, 21(3), 1548–1561.CrossRef
62.
Bousige, C., et al. (2016). Realistic molecular model of kerogen’s nanostructure. Nature Materials, 15, 576–582.CrossRef
63.
Falk, K., Coasne, B., Pellenq, R., Ulm, F.-J., & Bocquet, L. (2015). Subcontinuum mass transport of condensed hydrocarbons in nanoporous media. Nature Communications, 6, 6949.CrossRef
64.
Ho, T. A., Criscenti, L. J., & Wang, Y. (2016). Nanostructural control of methane release in kerogen and its implications to wellbore production decline. Scientific Reports, 6, 28053.CrossRef
65.
Castrillon, S. R. V., Giovambattista, N., Aksay, I. A., & Debenedetti, P. G. (2009). Effect of surface polarity on the structure and dynamics of water in nanoscale confinement. The Journal of Physical Chemistry B, 113(5), 1438–1446.CrossRef
66.
Gordillo, M. C., & Marti, J. (2008). Structure of water adsorbed on a single graphene sheet. Physical Review B, 78(7), 075432.CrossRef
67.
Argyris, D., Tummala, N. R., Striolo, A., & Cole, D. R. (2008). Molecular structure and dynamics in thin water films at the silica and graphite surfaces. Journal of Physical Chemistry C, 112(35), 13587–13599.CrossRef
68.
Argyris, D., Cole, D. R., & Striolo, A. (2009). Hydration structure on crystalline silica substrates. Langmuir, 25(14), 8025–8035.CrossRef
69.
Wang, J. W., Kalinichev, A. G., & Kirkpatrick, R. J. (2009). Asymmetric hydrogen bonding and orientational ordering of water at hydrophobic and hydrophilic surfaces: A comparison of water/vapor, water/talc, and water/mica interfaces. Journal of Physical Chemistry C, 113(25), 11077–11085.CrossRef
70.
Van der Spoel, D., et al. (2005). GROMACS: Fast, flexible, and free. Journal of Computational Chemistry, 26(16), 1701–1718.CrossRef
71.
Plimpton, S. (1995). Fast parallel algorithms for short-range molecular-dynamics. Journal of Computational Physics, 117(1), 1–19.CrossRef
72.
Frenkel, D., & Smit, B. (2002). Understanding molecular simulation from algorithms to applications. New York: Academic Press.
73.
Greathouse, J. A., Kinnibrugh, T. L., & Allendorf, M. D. (2009). Adsorption and separation of noble gases by IRMOF-1: Grand canonical Monte Carlo simulations. Industrial and Engineering Chemistry Research, 48(7), 3425–3431.CrossRef
Metadaten
Titel
Introduction
verfasst von
Tuan Anh Ho
Copyright-Jahr
2017
Buch
Nanoscale Fluid Transport

Print ISBN: 978-3-319-47002-3

Electronic ISBN: 978-3-319-47003-0

Copyright-Jahr: 2017

DOI
https://doi.org/10.1007/978-3-319-47003-0_1